CN210164574U

CN210164574U - Auxiliary Powered Wind Turbine

Info

Publication number: CN210164574U
Application number: CN201920444189.1U
Authority: CN
Inventors: 陈壬洲
Original assignee: Chen Ziying
Current assignee: Chen Ziying
Priority date: 2019-04-03
Filing date: 2019-04-03
Publication date: 2020-03-20
Anticipated expiration: 2029-04-03

Abstract

The utility model relates to an auxiliary power's aerogenerator contains: one end of the support rod is provided with a main shaft; the first working fan blade, the second working rod, the third working rod and the fourth working rod are pivoted on the main shaft; the blades of the second working rod are respectively provided with a power groove, and the power grooves are filled with water; the blades of the third working rod are respectively provided with an air duct in a penetrating manner, the air duct is communicated with a plurality of air pipes, and the opening of each air pipe faces to each third blade; the sea tide blower delivers air to the air duct; the blades of the fourth working rod are respectively provided with a water collecting groove; the water drawing machine sprays water towards the water collecting tank; therefore, the wind driven generator with auxiliary power not only generates electricity by wind power, but also can drive the middle shaft to rotate by other power to generate electricity.

Description

Wind power generator with auxiliary power

Technical Field

The utility model discloses a aerogenerator's technical field especially relates to an auxiliary power's aerogenerator.

Background

At present, a plurality of different energy generation modes such as hydroelectric power generation, thermal power generation, nuclear power generation, wind power generation and the like exist, and with the social progress, the demand of energy is greatly increased, so that the development of energy is greatly emphasized in various countries.

Taking wind power generation as an example, wind power generation generally refers to converting wind current into energy and using the energy, as shown in fig. 1, the wind power generator 10 mainly includes a support rod 11 and a fan blade 12, the fan blade 12 is pivoted at one end of the support rod 11, and the fan blade 12 faces the windward side.

When wind blows the fan blades 12, the rotating fan blades 12 can drive the central shaft 111 connected to the center to rotate, and the central shaft 111 rotates to drive the generator to generate electricity, so that kinetic energy generated by the rotation of the fan blades 12 can be converted into electric energy, and human beings can store the energy from the wind.

Preferably, the energy generated by wind does not pollute the environment, so wind power generation is also called green energy.

However, in general, wind power generation only uses wind blowing to generate power, and when the wind is too weak or no wind exists, the blades 12 cannot rotate, and if the blades 12 cannot drive the central shaft 111 to rotate, power cannot be generated.

SUMMERY OF THE UTILITY MODEL

The utility model aims to solve the shortcoming that the wind-force is too weak or can't produce the electric energy when there is no wind.

To achieve the above object, the present invention provides an auxiliary power wind power generator, comprising:

one end of the support rod is provided with a main shaft;

the first working fan blade is in driving connection with the main shaft and is provided with a plurality of first blades;

the second working rod is in driving connection with the main shaft and is provided with a plurality of second blades, power grooves are formed in the blades respectively, and water is filled in the power grooves;

the third working rod is in driving connection with the main shaft and is provided with a plurality of third blades, each third blade is respectively provided with an air channel in a penetrating mode, the air channels are communicated with a plurality of air pipes, and the openings of the air pipes face the third blades;

the sea tide air blower is provided with a main body and a floating body, wherein the main body is internally provided with an air blowing space which is communicated to the air duct through a conveying channel, and the floating body is provided with a floating block for placing on the water surface and an air blowing block which is connected with the floating block in a power mode and is arranged in the air blowing space;

the fourth working rod is in driving connection with the main shaft and is provided with a plurality of fourth blades, and each fourth blade is provided with a water collecting groove;

the water drawing machine is provided with a water drawing component and a water spraying component which are communicated, and the water spraying component sprays water towards the water collecting tank.

In a preferred embodiment, the first working blade is pivotally disposed at an end of the main shaft away from the supporting rod.

In a preferred embodiment, the power slot is gourd-shaped.

In a preferred embodiment, a one-way valve is arranged between the conveying channel and the air duct, and the air blowing block is positioned in the air blowing space and is displaced along the vertical direction along with the fluctuation of the sea surface.

In a preferred embodiment, the water pumping component of the water pump is a water pumping motor, and the water pumping motor pumps water and then conveys the water along the sprinkling component and sprays the water to the water collecting tank of each fourth working rod.

In a preferred embodiment, one of the first operating blade, the second operating rod, the third operating rod or the fourth operating rod is in power connection with a driving chain.

Therefore, when the wind power is insufficient, the wind driven generator with auxiliary power still can generate power by the second working rod, the third working rod and the fourth working rod, and more preferably, if the wind power is too weak and overcomes the maximum static friction force of the central shaft, the maximum static friction force of the central shaft is overcome by any one of the second working rod, the third working rod and the fourth working rod, so that the first working fan blade can continuously rotate while receiving weak wind, and the problem that the wind power cannot be depended on to generate power when no wind exists or the wind power is too weak is solved.

Drawings

Fig. 1 is a side sectional view of a prior art wind power generator.

Fig. 2 is a front view of the present invention in a preferred embodiment.

Fig. 3 is a side sectional view of the present invention in a preferred embodiment.

Fig. 4 is a side sectional view of another preferred embodiment of the present invention.

Fig. 5 is a front view of the present invention in a final preferred embodiment.

Fig. 6 is a side sectional view of the present invention in a last preferred embodiment.

Description of the symbols in the drawings:

the prior art is as follows:

wind power generator 10 support rod 11

Middle shaft 111 fan blade 12

The utility model discloses:

main shaft 21 of strut 20

First blade 31 of first working fan 30

Second working lever 40A

Second vane 41 power slot 411

Power groove 411A third operating lever 50

Third blade 51 duct 511

Air pipe 512 tidal blower 60

Air blowing space 611 of main body 61

Floating body 62 floating block 621

Blowing block 622 transfer passage 63

Check valve 64 fourth operating lever 70

Fourth working lever 70A fourth blade 71

Water collecting tank 711A

Working column 72A

Water drawing part 81 of water drawing machine 80

The sprinkler member 82 carries the chain 90

Vertical direction Y

Detailed Description

The technical solution of the present invention will be described clearly and completely below, and it should be understood that the described embodiments are some, but not all embodiments of the present invention. Based on the embodiments in the present invention, all other embodiments obtained by a person skilled in the art without creative efforts belong to the protection scope of the present invention.

As shown in fig. 2 to 4, the present invention relates to an auxiliary power wind power generator, comprising:

a support rod 20, wherein one end is provided with a main shaft 21;

the first working fan blade 30 is in driving connection with the main shaft 21, the first working fan blade 30 is provided with a plurality of first blades 31, and the first working fan blade 30 is pivoted at one end of the main shaft 21 away from the supporting rod 20;

the second working rod 40 is in driving connection with the main shaft 21, the second working rod 40 is provided with a plurality of second blades 41, power slots 411 are respectively formed in the second blades 41, and water is filled in the power slots 411;

in this embodiment, the power tank 411 is substantially gourd-shaped, so that two ends of the power tank 411 can store more water than the center of the power tank 411.

The third working rod 50 is in driving connection with the main shaft 21, the third working rod 50 is provided with a plurality of third blades 51, each third blade 51 is respectively provided with an air duct 511 in a penetrating way, the air duct 511 is communicated with a plurality of air pipes 512, and the openings of the air pipes 512 face the third blades 51;

a sea tide blower 60 having a main body 61 and a floating body 62, the main body 61 having a blowing space 611 therein, the blowing space 611 being communicated to an air duct 511 through a transfer passage 63, and the floating body 62 having a floating block 621 for being placed on the water surface, and a blowing block 622 power-coupled to the floating block 621 and disposed in the blowing space 611;

in this embodiment, a one-way valve 64 is disposed between the transportation channel 63 and the air duct 511, the air blowing block 622 is located in the air blowing space 611 and is displaced along the vertical direction Y along with the fluctuation of the sea surface, when the sea surface rises or falls, the air blowing block 622 is reversely displaced along the vertical direction Y, so that the air in the air blowing space 611 is pushed to the air duct 511 from the transportation channel 63, and the wind blows to the third blades 41 from the wind pipes 512, so that the third blades 41 are further rotated by the wind force of the sea tide blower 60.

A fourth operation rod 70 pivoted to the main shaft 21, the fourth operation rod 70 having a plurality of fourth blades 71, each of the fourth blades 71 having a water collection groove 711;

the water scooping machine 80 has a water scooping member 81 and a water sprinkling member 82 communicating with each other, and the water sprinkling member 82 sprays water toward the water collection tank 711.

In the present embodiment, the pumping unit 81 of the water scooper 80 is a pumping motor, the pumping motor pumps water from the sea, the seawater is transported along the water sprinkling unit 82 and sprinkled to the water collection grooves 711 of the fourth blades 70, and the fourth blades 71 receive the water sprinkled from the water sprinkling unit 82, and then the fourth blades 70 are rotated by the force of the water.

Preferably, a one-way bearing is disposed between the main shaft 20 and the first working blade 30, a one-way bearing is disposed between the main shaft 20 and the second working rod 40, a one-way bearing is disposed between the main shaft 20 and the third working rod 50, and a one-way bearing is disposed between the main shaft 20 and the fourth working rod 70.

As shown in fig. 4, in another preferred embodiment, one of the first operating blade 30, the second operating rod 40, the third operating rod 50 or the fourth operating rod 70 is connected to a driving chain 90, and the driving chain 90 is further connected to a factory exhaust fan, a hydroelectric generator, a waterwheel, etc. by using the wasted or naturally generated power to drive the driving chain 90, and the driving chain 90 drives one of the first operating blade 30, the second operating rod 40, the third operating rod 50 or the fourth operating rod 70, so as to provide additional kinetic energy to the first operating blade 30, the second operating rod 40, the third operating rod 50 or the fourth operating rod 70 and rotate the same.

In view of the above, the present invention provides a structure configuration and connection relationship thereof in a preferred embodiment, which is used as follows:

as shown in fig. 2 and 3, when the wind force is sufficient at ordinary times, the first working blade 30 is rotated by the wind force to drive the main shaft 21, and when the wind force is insufficient, the first working blade 30 cannot be rotated by the wind alone.

Due to the water in each power groove 411 of the second working rod 40, when each second blade 41 presents different angles, the water in each power groove 411 can flow in the power groove 411, so that kinetic energy is generated, the second working rod 40 can rotate, and the second working rod 40 drives the main shaft 21 to rotate.

Along with the fluctuation of the sea surface, the floating block 621 of the sea tide blower 60 moves back and forth along the vertical direction Y, so that the air in the blowing space 611 is sent into the air duct 511, and is blown out from each air duct 512, and the third working rod 50 is rotated by the air blown out from each air duct 512, so as to drive the main shaft 21 to rotate for power generation.

The pumping motor of the water drawing machine 80 draws the seawater to spray the seawater from the water spraying part 82 to the fourth working rod 70, and the water collecting grooves 711 on the fourth blades 71 receive the seawater, so that the impulsive force of the water sprayed by the water spraying part 82 and the weight of the seawater drive the fourth working rod 70 to rotate and further drive the main shaft 21 to rotate for generating power.

Therefore, when the wind is insufficient, the wind driven generator of the auxiliary power can still perform the power generation operation by the second operating rod 40, the third operating rod 50 and the fourth operating rod 70, and more preferably, if the wind is too weak to overcome the maximum static friction force of the main shaft 21, any one of the second operating rod 40, the third operating rod 50 and the fourth operating rod 70 overcomes the maximum static friction force of the main shaft 21, so that the first operating blade 30 can continuously rotate while receiving weak wind, thereby solving the problem that the wind cannot be relied on to generate power when no wind or the wind is too weak.

More preferably, the first working blade 30 belongs to the existing wind power generation blade, and in this embodiment, only the longer main shaft 21 needs to be replaced, so that the second working rod 40, the third working rod 50 and the fourth working rod 70 can be directly installed on the main shaft 21, and the wind power generation device becomes the auxiliary power of the present invention.

In another embodiment, one of the first operating blade 30, the second operating rod 40, the third operating rod 50 or the fourth operating rod 70 can be additionally connected with a driving chain 90, and the driving chain 90 is additionally connected with the abandoned or naturally generated power, so that the first operating blade 30, the second operating rod 40, the third operating rod 50 or the fourth operating rod 70 can not only generate power by wind power, water power, sea tide power and the like, but also rotate by the abandoned or naturally generated power to generate power.

As shown in fig. 4 and 5, in a last embodiment of the present invention, the second working rod 40A can be a column, the power groove 411A is disposed in the second working rod 40A, the fourth working rod 70A has a working column 72A, one end of the working column 72A is connected to the main shaft 21, and the other end of the working column 72A is connected to the water collecting groove 711A.

In summary, the above embodiments are only preferred embodiments of the present invention, and are not intended to limit the scope of the present invention, and any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention should be included in the scope of the present invention.

Claims

1. a wind generator of auxiliary power, is characterized in that, comprises:

a support rod, one end of which is provided with a main shaft;

The first working fan blade is drivingly connected with the main shaft, and the first working fan blade has a plurality of first blades;

The second working rod is drivingly connected with the main shaft, the second working rod has a plurality of second blades, and each of the second blades is respectively provided with a power groove, and the power groove is filled with water;

The third working rod is drivingly connected with the main shaft, the third working rod has a plurality of third blades, and each of the third blades is respectively provided with an air duct, and the air duct is connected with a plurality of air ducts, The opening of each of the air ducts faces each of the third blades;

The ocean tide blower has a main body and a floating body, the main body has a blasting space, the blasting space is connected to the air passage through a conveying channel, and the floating body has a floating block for placing on the water surface, and a power connection The floating block is arranged in the blasting block in the blasting space;

a fourth working rod, drivingly connected with the main shaft, the fourth working rod has a plurality of fourth blades, and each of the fourth blades has a water collecting groove;

The water pumping machine has a connected water pumping part and a water spraying part, and the water spraying part sprays water toward the water collecting tank.

2 . The auxiliary power wind generator according to claim 1 , wherein a one-way bearing is provided between the main shaft and the first working fan blade, and the connection between the main shaft and the second working rod is 2 . A one-way bearing is arranged between the main shaft and the third working rod, and a one-way bearing is arranged between the main shaft and the fourth working rod.

3 . The auxiliary power wind generator according to claim 1 , wherein the first working fan blade is pivoted at an end of the main shaft away from the support rod. 4 .

4 . The auxiliary power wind generator according to claim 1 , wherein a one-way valve is arranged between the conveying passage and the air passage, and the blasting block is located in the blasting space along with the wind. 5 . The fluctuation of the sea surface is displaced in the vertical direction.

5 . The auxiliary power wind generator according to claim 1 , wherein the water pumping component of the water pumping machine is a water pumping motor, and the water pumping motor pumps water, and then transports and sprays the water along the sprinkler component. 6 . to the sump of each of the fourth working rods.

6. The auxiliary power wind generator according to claim 1, wherein one of the first working blade, the second working rod, the third working rod or the fourth working rod Power connection with the drive chain.

7 . The auxiliary power wind generator according to claim 1 , wherein the second working rod is cylindrical, and the power groove is arranged in the second working rod, and the fourth working rod The rod has a working column, one end of the working column is connected to the main shaft, and the other end of the working column is connected to the sump.